Upload a raw 12-lead ECG recording (GuiTu XML). ECG-ArrestNet extracts electrophysiologic features, runs the full inference pipeline, and returns a model-estimated IHCA probability with explainable contributions.
ECG-ArrestNet is a research prototype developed to demonstrate an ECG-based deep learning workflow for estimating short-term IHCA risk after index ECG acquisition.
Second Xiangya Hospital of Central South University — a tertiary referral center providing the 12-lead ECG data for ECG-ArrestNet development and validation.
Multi-scale 1D-CNN backbone, 8-head lead-aware cross-attention, BiLSTM temporal encoder, and gated fusion of 52 ECG-derived features with deep-learning representations.
Uploaded ECG data are processed under strict data-protection safeguards and are never stored, shared, or used for any other purpose.
Upload a 12-lead ECG file (GuiTu XML resting-ECG export), then run the prediction. The model uses the ECG signal alone — no demographic or clinical inputs. This in-browser demonstration reproduces the ECG-ArrestNet inference workflow for research illustration; the output includes a model-estimated IHCA probability, classification relative to the model threshold, feature-level contributions, and a lead-attention visualization.
This platform is a research demonstration of the ECG-ArrestNet inference workflow. It is not a medical device and must not be used for diagnosis, triage, monitoring, or treatment decisions. As stated in the study, the model was evaluated retrospectively; prospective validation — ideally in a randomized controlled trial — is required before any clinical adoption. Uploaded signals are processed locally in the browser and are never transmitted or stored.
Reported performance derives from retrospective case-control cohorts and may differ in prospective, real-time settings due to data quality, workflow, and population shifts.
Study cohorts used an enriched case-control design (~25% positive rate), not real-world IHCA prevalence. PPV and NPV are prevalence-dependent and can be recalibrated for any target prevalence using Bayes' theorem.